Design of a high-voltage analog front-end circuit for integration with CMUT arrays

Parisa Behnamfar, S. Mirabbasi
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引用次数: 19

Abstract

Capacitive Micro-machined Ultrasound Transducer (CMUT) technology is becoming popular in ultrasound imaging due to its many advantages as compared to its piezoelectric counterpart. These advantages include ease of fabrication and integration with CMOS readout circuitry. This paper presents the design of a high voltage (HV) transmitting driver and a low-power variable-gain receiving amplifier which are intended for integration with CMUT arrays. Also, by Verilog-AMS behavioral modeling of the CMUTs, their loading effect is modeled more realistically. The circuit is designed in a 0.8-μm HV CMOS technology. The transmitter is capable of generating pulses of up to 300 V. The gain of the receiving amplifier varies from 72 dB to 90 dB while its bandwidth ranges from 11 MHz to 9 MHz. The amplifier consumes 3 mW from a 5V supply and has an input resistance of 1KΩ.
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用于集成CMUT阵列的高压模拟前端电路的设计
电容式微机械超声换能器(CMUT)技术由于其与压电式超声换能器相比具有许多优点,在超声成像中越来越受欢迎。这些优点包括易于制造和集成CMOS读出电路。本文设计了一种可与CMUT阵列集成的高电压(HV)发射驱动器和低功率变增益接收放大器。此外,通过Verilog-AMS对cmut的行为建模,可以更真实地模拟其加载效果。该电路采用0.8 μm HV CMOS技术设计。发射机能够产生高达300伏的脉冲。接收放大器的增益从72 dB到90 dB不等,其带宽从11 MHz到9 MHz不等。放大器从5V电源消耗3mw,输入电阻为1KΩ。
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